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Limitations and Future Applications of Quantum Cryptography最新文献

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Quantum Algorithms 量子算法
Pub Date : 1900-01-01 DOI: 10.4018/978-1-7998-6677-0.CH005
Renata Wong, A. Bhatia
In the last two decades, the interest in quantum computation has increased significantly among research communities. Quantum computing is the field that investigates the computational power and other properties of computers on the basis of the underlying quantum-mechanical principles. The main purpose is to find quantum algorithms that are significantly faster than any existing classical algorithms solving the same problem. While the quantum computers currently freely available to wider public count no more than two dozens of qubits, and most recently developed quantum devices offer some 50-60 qubits, quantum computer hardware is expected to grow in terms of qubit counts, fault tolerance, and resistance to decoherence. The main objective of this chapter is to present an introduction to the core quantum computing algorithms developed thus far for the field of cryptography.
在过去的二十年中,研究团体对量子计算的兴趣显著增加。量子计算是在量子力学原理的基础上研究计算机的计算能力和其他特性的领域。主要目的是找到比解决相同问题的任何现有经典算法都快得多的量子算法。虽然目前可供公众免费使用的量子计算机不超过20个量子位,而最近开发的量子设备提供了大约50-60个量子位,但量子计算机硬件有望在量子位计数、容错性和抗退相干性方面得到增长。本章的主要目的是介绍迄今为止为密码学领域开发的核心量子计算算法。
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引用次数: 1
Quantum Cryptography 量子密码
Pub Date : 1900-01-01 DOI: 10.4018/978-1-7998-6677-0.CH001
S. Billewar, G. Londhe, Sunil Ghane
History repeats itself. Quantum cryptography has started a revolution of quantum computing and has repeated the days of Einstein's research paper on “Theory of Relativity,” which changed the world's perceptions of physics completely written based on Newton's laws. Quantum cryptography is going to change the definition of computers right from scratch. The last century was witness of a space race between US and USSR. This century would be witness of quantum computing race between US and China. It has changed the dimensions of operating systems, software, hardware, databases, and applications. Quantum computers are in a phase to replace the conventional computers and they are reaching to the level called quantum supremacy. The chapter covers the details of the basic principles and work methodology of quantum cryptography, the contribution of various pioneers, advantages over classical cryptography, its applications, future scope, and limitations simultaneously. The chapter covers the contribution of leading countries and organizations in quantum revolution.
历史会重演。量子密码学开启了量子计算的革命,再现了爱因斯坦的研究论文《相对论》的时代。爱因斯坦的论文完全基于牛顿定律,改变了世界对物理学的认识。量子密码学将从头开始改变计算机的定义。上个世纪见证了美国和苏联之间的太空竞赛。本世纪将见证美国和中国之间的量子计算竞赛。它改变了操作系统、软件、硬件、数据库和应用程序的维度。量子计算机正处于取代传统计算机的阶段,它们正在达到被称为量子霸权的水平。本章详细介绍了量子密码学的基本原理和工作方法,各种先行者的贡献,量子密码学相对于经典密码学的优势,量子密码学的应用,未来的范围和局限性。本章涵盖了主要国家和组织在量子革命中的贡献。
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引用次数: 0
Quantum Cryptography 量子密码
Pub Date : 1900-01-01 DOI: 10.4018/978-1-7998-6677-0.CH003
S. Lakshmi, S. Krishnamoorthy, Mudassir Khan, N. Kumar, V. Sahni
Cryptography is used for the secure communication in which two parties are involved. The most popular cryptographic issue is the transmission of confidential messages. The privacy is maintained using the cryptographic protocol. The security of quantum cryptography relies more on physics including quantum mechanics and statistics rather than on solving mathematical problems. A well-known application of quantum cryptography is quantum key distribution (QKD) that is used to establish communication by generating cryptographic keys. Moreover, it is based on the Heisenberg uncertainty principle that ensures the security and prevents from eavesdropping. Basically, quantum cryptography with faint laser pulses, polarization coding, phase coding, and frequency coding have been discussed.
密码学用于涉及双方的安全通信。最常见的密码学问题是机密信息的传输。使用加密协议维护隐私。量子密码学的安全性更多地依赖于物理学,包括量子力学和统计学,而不是解决数学问题。量子密码学的一个著名应用是量子密钥分发(QKD),它通过生成加密密钥来建立通信。此外,它基于海森堡测不准原理,保证了安全性,防止了窃听。基本上,量子密码与微弱的激光脉冲,极化编码,相位编码和频率编码进行了讨论。
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引用次数: 0
期刊
Limitations and Future Applications of Quantum Cryptography
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